QuTech is a front-runner in the field of quantum computing and quantum internet and has the window of opportunity to become the world leader in the field of quantum. Chances are that the first quantum computer and the first large-scale quantum internet will be built in Delft. However, the technology is still in an early phase. In this phase it is extremely important to focus on talent. QuTech Academy plays a key role in attracting and educating top talent for our research activities and for the future quantum technology sector.
I will continue watching to see how this turns out. At the beginning of the video, there was a diagram showing FPGA, GPU, Quantum accelerator peripherals. Following that there was a block diagram of a classical computer that was being adapted for Quantum Computing. That feels like too very different approaches.
I agree with your interpretation of the cat experiment. The Copenhagen interpretation is an unconvincing interpretation that was created as a result of being hesitant about Einstein's idea of wave packets. We should follow Born's probability interpretation.
how does it come out that the probability amplitude of the + state with coefficient 1/2 + e^(i*fi)/2 will be 1/2+cos(fi)/2? Or did you mean that the probability of 0 measurement output will be this much? But then it is a mistake to say that we measure in the X base.
I'm pretty excited about some new things I learned from this video as I am currently working on cryogenic memory for new architectures with control components. Many thanks. I am aware the Qblox is at the APS March meeting here in Minneapolis, but I wasn't able to make it this year 😅.
“U” Shape Waves This model may be related to the your topic. ru-vid.com/video/%D0%B2%D0%B8%D0%B4%D0%B5%D0%BE-wrBsqiE0vG4.htmlsi=waT8lY2iX-wJdjO3 Thanks for your informative and well produced video. You and your viewers might find the quantum-like analog interesting and useful. I have been trying to describe the “U” shape wave that is produced in my amateur science mechanical model in the video link. I hear if you over-lap all the waves together using Fournier Transforms, it may make a “U” shape or square wave. Can this be correct representation Feynman Path Integrals? In the model, “U” shape waves are produced as the loading increases and just before the wave-like function shifts to the next higher energy level. Your viewers might be interested in seeing the load verse deflection graph in white paper found elsewhere on my RU-vid channel. Actually replicating it with a sheet of clear folder plastic and tape. Seeing it first hand is worth the effort.
1:15 there must be a mistake regarding charging energies. A 100 times larger radius should result in an energy 100 times smaller (here its 10 times smaller: 30mev/3mev = 10).
note that M_i = |i><i| and since |i> is normally written with a factor of 1/sqrt(2) in front and scalars can be factored out of tensor products he simply skipped a step and multiplied the whole thing by 1/2
they have done a shit-ton of work simplifying the math somewhat since i graduated astrophysics in '93... i would have done better in linear algebra and statistical mechanics if we had these processes to learn with...
At 1:55 did you mean going from Digital to Analogue domains (consistent with eh ADC in the circuit), as opposed to what was said? Very informative video - thank you. 🙂
I wonder if it can be used for : 1. universe simulation 2. breaking password & 3. playing chess vs super computer 4. doing my homework 5. mining bitcoin 😅
A very insightful explanation and visualization. I was struggling to understand the axis of rotation for each of the gates, but this video made everything crystal clear. Thank you so much!
Without any objective background material the series feels like propaganda. By the way, I would have started this series with the double-slit experiment.
@ 2:58 As a side note, this is one of the biggest problems in producing a practical quantum computer. And we (= mankind) are still far from solving this problem. The theory is nice, but reality often isn't that nice ;-)
